Cells Tissues Organs,
Год журнала:
2021,
Номер
211(3), С. 269 - 281
Опубликована: Авг. 11, 2021
Microphysiological
systems
(MPS)
or
tissue
chips/organs-on-chips
are
novel
<i>in
vitro</i>
models
that
emulate
human
physiology
at
the
most
basic
functional
level.
In
this
review,
we
discuss
various
hurdles
to
widespread
adoption
of
MPS
technology
focusing
on
issues
from
multiple
stakeholder
sectors,
e.g.,
academic
developers,
commercial
suppliers
platforms,
pharmaceutical
and
biotechnology
industries,
regulatory
organizations.
Broad
has
thus
far
been
limited
by
a
gap
in
translation
between
platform
end-users,
agencies,
industry.
brief
offer
perspective
existing
barriers
how
end-users
may
help
surmount
these
obstacles
achieve
broader
technology.
Nature Reviews Genetics,
Год журнала:
2022,
Номер
23(8), С. 467 - 491
Опубликована: Март 25, 2022
The
failure
of
animal
models
to
predict
therapeutic
responses
in
humans
is
a
major
problem
that
also
brings
into
question
their
use
for
basic
research.
Organ-on-a-chip
(organ
chip)
microfluidic
devices
lined
with
living
cells
cultured
under
fluid
flow
can
recapitulate
organ-level
physiology
and
pathophysiology
high
fidelity.
Here,
I
review
how
single
multiple
human
organ
chip
systems
have
been
used
model
complex
diseases
rare
genetic
disorders,
study
host–microbiome
interactions,
whole-body
inter-organ
reproduce
clinical
drugs,
radiation,
toxins
infectious
pathogens.
address
the
challenges
must
be
overcome
chips
accepted
by
pharmaceutical
industry
regulatory
agencies,
as
well
discuss
recent
advances
field.
It
evident
instead
drug
development
avatars
personalized
medicine
ever
closer
realization.
This
Review
discusses
types
organ-on-a-chip
diverse
applications
disease
modelling,
medicine,
reach
full
potential.
Nature Reviews Methods Primers,
Год журнала:
2022,
Номер
2(1)
Опубликована: Май 12, 2022
Organs-on-chips
(OoCs)
are
systems
containing
engineered
or
natural
miniature
tissues
grown
inside
microfluidic
chips.
To
better
mimic
human
physiology,
the
chips
designed
to
control
cell
microenvironments
and
maintain
tissue-specific
functions.
Combining
advances
in
tissue
engineering
microfabrication,
OoCs
have
gained
interest
as
a
next-generation
experimental
platform
investigate
pathophysiology
effect
of
therapeutics
body.
There
many
examples
there
applications,
making
it
difficult
for
new
researchers
understand
what
makes
one
OoC
more
suited
an
application
than
another.
This
Primer
is
intended
give
introduction
aspects
that
need
be
considered
when
developing
application-specific
OoC.
The
covers
guiding
principles
considerations
design,
fabricate
operate
OoC,
well
subsequent
assaying
techniques
extract
biological
information
from
devices.
Alongside
this
discussion
current
future
applications
technology,
inform
design
operational
decisions
during
implementation
systems.
with
aim
mimicking
physiology
range
biomedical
therapeutic
applications.
Leung,
de
Haan
et
al.
report
practical
tips
organ-on-a-chip
Communications Medicine,
Год журнала:
2022,
Номер
2(1)
Опубликована: Дек. 6, 2022
Conventional
preclinical
models
often
miss
drug
toxicities,
meaning
the
harm
these
drugs
pose
to
humans
is
only
realized
in
clinical
trials
or
when
they
make
it
market.
This
has
caused
pharmaceutical
industry
waste
considerable
time
and
resources
developing
destined
fail.
Organ-on-a-Chip
technology
potential
improve
success
development
pipelines,
as
can
recapitulate
organ-level
pathophysiology
responses;
however,
systematic
quantitative
evaluations
of
Organ-Chips'
predictive
value
have
not
yet
been
reported.870
Liver-Chips
were
analyzed
determine
their
ability
predict
drug-induced
liver
injury
by
small
molecules
identified
benchmarks
Innovation
Quality
consortium,
who
published
guidelines
defining
criteria
for
qualifying
models.
An
economic
analysis
was
also
performed
measure
could
offer
if
broadly
adopted
supporting
toxicity-related
decisions
part
workflows.Here,
we
show
that
Liver-Chip
met
qualification
across
a
blinded
set
27
known
hepatotoxic
non-toxic
with
sensitivity
87%
specificity
100%.
We
this
level
performance
generate
over
$3
billion
annually
through
increased
small-molecule
R&D
productivity.The
results
study
how
incorporating
Organ-Chips
into
workflows
substantially
discovery
development,
allowing
manufacturers
bring
safer,
more
effective
medicines
market
less
at
lower
costs.Drug
lengthy
costly,
relies
on
laboratory
fail
human
reactions
drugs.
Because
this,
toxic
sometimes
go
reach
once
are
marketplace.
involves
growing
cells
devices
mimic
organs
body,
such
liver.
potentially
help
identify
toxicities
earlier,
but
there
limited
research
well
effects
compared
conventional
In
study,
870
injury,
common
cause
failure,
found
outperformed
These
suggest
widespread
acceptance
decrease
attrition,
minimize
patients,
billions
revenue
industry.
Clinical and Translational Science,
Год журнала:
2021,
Номер
14(5), С. 1659 - 1680
Опубликована: Май 13, 2021
Abstract
Nonclinical
testing
has
served
as
a
foundation
for
evaluating
potential
risks
and
effectiveness
of
investigational
new
drugs
in
humans.
However,
the
current
two‐dimensional
(2D)
vitro
cell
culture
systems
cannot
accurately
depict
simulate
rich
environment
complex
processes
observed
vivo,
whereas
animal
studies
present
significant
drawbacks
with
inherited
species‐specific
differences
low
throughput
increased
demands.
To
improve
nonclinical
prediction
drug
safety
efficacy,
researchers
continue
to
develop
novel
models
evaluate
promote
use
improved
cell‐
organ‐based
assays
more
accurate
representation
human
susceptibility
response.
Among
others,
three‐dimensional
(3D)
physiologically
relevant
cellular
microenvironment
offer
great
promise
assessing
disposition
pharmacokinetics
(PKs)
that
influence
efficacy
from
an
early
stage
development.
Currently,
there
are
numerous
different
types
3D
systems,
simple
spheroids
complicated
organoids
organs‐on‐chips,
single‐cell
type
static
co‐culture
equipped
microfluidic
flow
control
well
hybrid
combine
2D
biomedical
microelectromechanical
systems.
This
article
reviews
application
challenges
PKs,
safety,
assessment,
provides
focused
discussion
regulatory
perspectives
on
liver‐,
intestine‐,
kidney‐,
neuron‐based
models.
Biosensors and Bioelectronics,
Год журнала:
2023,
Номер
231, С. 115271 - 115271
Опубликована: Март 31, 2023
Current
in-vitro
2D
cultures
and
animal
models
present
severe
limitations
in
recapitulating
human
physiopathology
with
striking
discrepancies
estimating
drug
efficacy
side
effects
when
compared
to
trials.
For
these
reasons,
microphysiological
systems,
organ-on-chip
multiorgans
microdevices
attracted
considerable
attention
as
novel
tools
for
high-throughput
high-content
research
achieve
an
improved
understanding
of
diseases
accelerate
the
development
process
towards
more
precise
eventually
personalized
standards.
This
review
takes
form
a
guide
on
this
fast-growing
field,
providing
useful
introduction
major
themes
indications
further
readings.
We
start
analyzing
Organs-on-chips
(OOC)
technologies
testing
administration
routes:
(1)
oral/rectal
route
by
intestine-on-a-chip,
(2)
inhalation
lung-on-a-chip,
(3)
transdermal
skin-on-a-chip
(4)
intravenous
through
vascularization
models,
considering
how
drugs
penetrate
bloodstream
are
conveyed
their
targets.
Then,
we
focus
OOC
(other)
specific
organs
diseases:
neurodegenerative
brain
blood
barriers,
tumor
including
vascularization,
organoids/spheroids,
engineering
screening
antitumor
drugs,
liver/kidney
chips
multiorgan
gastrointestinal
metabolic
assessment
biomechanical
systems
heart,
muscles
bones
structures
related
diseases.
Successively,
discuss
materials
organ
chips,
microfluidic
organs-on-chips,
sensor
integration
real-time
monitoring,
cell
lines
chips.
(Nano)delivery
approaches
therapeutics
chip
also
described.
Finally,
conclude
critical
discussion
current
significance/relevance,
trends,
limitations,
challenges
future
prospects
terms
revolutionary
impact
biomedical
research,
preclinical
development.
Lab on a Chip,
Год журнала:
2021,
Номер
21(15), С. 2857 - 2868
Опубликована: Янв. 1, 2021
Standards
can
demonstrate
technological
and
biological
relevance,
increase
industry
implementation
support
regulatory
acceptance.
This
article
will
give
you
an
overview
on
the
state
of
play
future
needs
in
standardisation
for
OoC.
The
human
brain
and
central
nervous
system
(CNS)
present
unique
challenges
in
drug
development
for
neurological
diseases.
One
major
obstacle
is
the
blood-brain
barrier
(BBB),
which
hampers
effective
delivery
of
therapeutic
molecules
into
while
protecting
it
from
blood-born
neurotoxic
substances
maintaining
CNS
homeostasis.
For
BBB
research,
traditional
vitro
models
rely
upon
Petri
dishes
or
Transwell
systems.
However,
these
static
lack
essential
microenvironmental
factors
such
as
shear
stress
proper
cell-cell
interactions.
To
this
end,
organ-on-a-chip
(OoC)
technology
has
emerged
a
new
modeling
approach
to
better
recapitulate
highly
dynamic
vivo
microenvironment
so-called
neural
vascular
unit
(NVU).
Such
BBB-on-a-chip
have
made
substantial
progress
over
last
decade,
concurrently
there
been
increasing
interest
various
diseases
Alzheimer's
disease
Parkinson's
using
OoC
technology.
In
addition,
with
recent
advances
other
scientific
technologies,
several
opportunities
improve
platform
via
multidisciplinary
approaches
are
available.
review,
an
overview
NVU
provided,
applications
personalized
medicine
discovery
discussed,
current
future
directions
delineated.